Department of Surgery, Division of Neurosurgery, University of British Columbia, Vancouver, Canada.
Faculty of Graduate and Postdoctoral Studies, University of British Columbia, Vancouver, Canada.
Sci Rep. 2024 Oct 31;14(1):26205. doi: 10.1038/s41598-024-77315-8.
Pediatric skulls change rapidly in size and shape during development, especially for children up to 8 years of age. This project was developed to address the gap in understanding of the three-dimensional growth parameters of the human skull during this period and the impact these growth patterns have on fontanelle closure and suture formation. This study offers novel data on the dynamic changes in the anatomy of the skull with the intention of providing better guidance for pediatric surgical care. Craniometric landmarks defined on three-dimensional computed tomography reconstructions were used to map skull development in children aged 0 to 8 years old. A total of 364 datasets were analyzed and statistically representative 3D skulls with anatomical craniometric features such as head shape, bone size, suture and fontanelle closure time were generated for 17 age groups spanning birth to 8 years of age to provide a comprehensive neuroanatomical understanding of how the pediatric skull changes over time. This study indicates that the cranial bones follow a non-linear growth pattern, with the occipital and frontal bones driving the directionality of fontanelle closure and delivers a 3D visualization of the developmental characteristics of the skull providing a landmark resource for understanding the growth dynamics of the human skull. While clinical measurements remain valid approaches for the planning of surgical interventions, these 3D models may provide a more accurate planning paradigm.
儿童颅骨在发育过程中大小和形状变化迅速,尤其是 8 岁以下的儿童。本项目旨在解决在这一时期理解人类颅骨三维生长参数以及这些生长模式对囟门闭合和骨缝形成的影响方面的空白。本研究提供了有关颅骨解剖结构动态变化的新数据,旨在为儿科手术护理提供更好的指导。在三维计算机断层扫描重建中定义的头测量标志用于绘制 0 至 8 岁儿童的颅骨发育图。共分析了 364 组数据集,并为 17 个年龄组生成了具有解剖头测量特征的具有统计学代表性的 3D 颅骨,例如头形、骨大小、骨缝和囟门闭合时间,以全面了解儿童颅骨随时间的变化。本研究表明,颅骨骨遵循非线性生长模式,枕骨和额骨驱动囟门闭合的方向性,并提供颅骨发育特征的 3D 可视化,为理解人类颅骨的生长动态提供了一个地标资源。虽然临床测量仍然是手术干预计划的有效方法,但这些 3D 模型可能提供更准确的规划范例。